A preliminary study on the promotion of wound healing by paeoniflorin carbon dots loaded in chitosan hydrogel.

Ruiming Feng, Feng Tian, Jian Zhou, Yilin Ping, Wenze Han, Xuexue Shi, Xue Bai, Yufeng Sun, Jiali Zhao, Xiuping Wu, Bing Li
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Abstract

Due to poor angiogenesis under the wound bed, wound treatment remains a clinical challenge. Therefore, there is an urgent need for new dressings to combat bacterial infections, accelerate angiogenesis, and accelerate wound healing. In this study, we prepared carbon dots nanomaterial (PF-CDs) derived from traditional Chinese medicine paeoniflorin using a simple green one pot hydrothermal method. The average particle size of the CSs we prepared was 4 nm, and a concentration of 200 μg ml-1was ultimately selected for experiments. Subsequently, PF-CDs were loaded into the chitosan hydrogel to form a new type of wound dressing CSMA@PF-CDs hydrogel. CSMA@PF-CDs demonstrated positive biocompatibility by promoting a 20% increase in cell proliferation and strong antibacterial activity. In comparison to the control group, CSMA@PF-CDs enhanced the expression level of anti-inflammatory factors by at least 2.5 times and reduces the expression level of pro-inflammatory factors by at least 3 times. Furthermore, CSMA@PF-CDs promoted the migration of Human umbilical vein endothelial cells and increased vascular endothelial growth factor expression by 5 times. The results ofin vivoexperiments indicate that CSMA@PF-CDs significantly promoted the healing of back wounds in rats. These characteristics make it a promising material for repairing infected wounds and a potential candidate for clinical skin regeneration applications.

壳聚糖水凝胶负载芍药苷碳点促进创面愈合的初步研究。
由于伤口床下血管生成不良,伤口治疗仍然是一个临床挑战。因此,迫切需要新的敷料来对抗细菌感染,加速血管生成,加速伤口愈合。本研究采用简单的绿色一锅水热法制备中药芍药苷碳点纳米材料(PF-CDs)。我们制备的CSs平均粒径为4 nm,最终选择200 μg ml-1的浓度进行实验。随后,将PF-CDs装入壳聚糖水凝胶中,形成新型伤口敷料CSMA@PF-CDs水凝胶。CSMA@PF-CDs通过促进20%的细胞增殖和较强的抗菌活性表现出积极的生物相容性。与对照组相比,CSMA@PF-CDs使抗炎因子表达水平提高至少2.5倍,使促炎因子表达水平降低至少3倍。CSMA@PF-CDs促进人脐静脉内皮细胞的迁移,使血管内皮生长因子的表达增加5倍。体内实验结果表明,CSMA@PF-CDs能显著促进大鼠背部伤口愈合。这些特性使其成为修复感染伤口和临床皮肤再生应用的潜在候选材料。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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